Operation
Fonctionnement du TileCal et d'ATLAS
TileCal and ATLAS operation
Di-Higgs
Etude de l’auto-couplage du Higgs
Study of the Higgs self-coupling
pp→?→tt̄
Recherche de nouvelles particules en tt̄
Search for new particles in tt̄
BSM with ML
Machine learning pour la recherches de nouvelle physique
Marchine learning for searches for New Physics
Top-EFT
Mesure de précision sur le quark top et interprétation par EFT
Top quark precision measurements and EFT interpretation
Tile phase 2
Amélioration du TileCal pour le HL-LHC
TileCal upgrade for the HL-LHC (Phase II)
HGTD
Nouveau détecteur HGTD pour le HL-LHC
New HGTD detector for HL-LHC (Phase II)
Ended
Actions scientifiques passées
Former scientific actions
 

Réseau ITN AMVA4NP / AMVA4NP Innovative Training Network

Personnes impliquées / People involved

Action scientifique passée / Former scientific action

PhotoJ. Donini (responsable / leader)   PhotoF. Jimenez Morales   PhotoE. Busato   PhotoD. Calvet  
H2020AMVA4NPMSCA


The Atlas@Clermont team is one beneficiary node of the EU-funded Innovative Training Network called AMVA4NewPhysics. General information about the network may be found in the webpage/blog https://amva4newphysics.wordpress.com/. Also, the AMVA4NP Twitter feed can be found in https://twitter.com/amva4np.

Fabricio Jiménez, the Early-Stage Researcher (doctoral student) for the UCA node has been hired in July 2016. Our node has been involved in the research and development of Statistical Learning methods and their applications in the context of Model-Independent searches for New Physics with data from the ATLAS detector. More specifically, the work has been developed in close collaboration with two other groups of the network, each of which was kickstarted by secondments of our student in the respective institutions:
  • With the Statistics Department at the University of Padova (Italy), our research focused in a proof of concept of an algorithm for anomaly detection. The method extends previous work that uses Gaussian Mixture Models in a semi-supervised approach, by means of a penalized likelihood for regularization. We were thus able to perform anomaly detection and dimensionality reduction in parallel for our problem setup, and an application in the context of dijet searches was performed. The resulting report delivered in December 2017 can be found in here: http://www.pd.infn.it/~dorigo/D4.2.pdf, and the corresponding code in https://github.com/Grzes91/PenalizedAD
  • Since 2018, in collaboration with the ATLAS group from the University of California at Irvine (United States), there is an ongoing project for extending a method for modelling backgrounds and generic signals in mass spectra using Gaussian Processes in the search for New Physics. Gaussian Processes have been used for quite a few years in several domains but their application in High-Energy Physics problems is fairly recent and brings a number of advantages with respect to other methods in the background modelling. Aiming for model-independence, we are currently developing a method with the fewest possible number of assumptions on the shape of (background or signal) distributions, that could serve to be applied to a broad number of variables and signatures.
Besides those activities, the network maintains a set of regular meetings, events and activities that despite being devised for the benefit of the network nodes and its students, often have an impact beyond that audience. Such events include specialized courses, lectures to broad audiences and outreach events, to name a few.

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Last update on 2024-01-11 ©Atlas@Clermont